! NRIP=0 ! ripple loss =2 (Redi model), =0 off ASRD=1.0 BSRD=1.0 NLSAW=.T NLSAWD=.F NLSAWE=.T NLSAWI=.T NLSAWB=.T NLSAWIC=.T XSWID1=0.0 !0.0=default, 1.0 turns off Kadomtsev model for T_i XSWID2=0.0 !0.0=default, 1.0 turns off Kadomtsev model for current DTSAWD=0.005 NZONES= 80 ! default=20 NZONE_NB=80 ! default=20 DXBSMOO=0.05 ! recommended if NZONE_NB>20 NZONE_FP=20 ! default=20 ! NHECFT=2 ! flag & harmonic number for ECE Te(freq,t) data LEVTRK=2 ! switch is for the straight-line tracking code ERRTKR=1.0E-3 ! tracking error (default=1.0E-3) LEVGEO=6 ! 5 for symetric ; 6 for assymetric geometry VMCFTOLA(1)=-1.0e-9 ! weaken VMEC convergence test (default=1.E-9) DTMINT=1.0E-6 NLINTK=.T LEVGB=3 DTMAXG=0.025 ! Maximum allowed geometry time step NFPDEPMD=2 ! Beam deposition model 2=complete DEP 1=faster DEPO NSIGEXC=1 ! 1 for excited states deposition model NMSIGX=2 ! Beam deposition on impurity: 1 (default)=Olson, 2=Phaneuf NDEPMOD=0 ! 0 (default), 1 for enhanced beam dep cross sections !XDEPMOD=1.6 ! enhancement factor if NDEPMOD=1 ! ! PLASMA COMPOSITION: !AIMP=10.0 !XZIMP=5.0 AIMPS= 9.02, 12.01 !Be, C XZIMPS=4.0 , 6.0 APLASM=1.0,2.0,3.0 !* SPECIES ATOMIC WTS. BACKZ=1.0,1.0,1.0 XZEFFI=2.0 !* PLASMA COMPOSITION ZEFF NLZEFM=.FALSE. !* SET .TRUE. FOR PC ZEFF = MAGDIF ZEFF (nototherwayround) CZEFFM=1.0 !*ZEFFM = ZEFFPC/CZEFFM NLZFIN=.F !* SET .TRUE. TO READ ZEFF(T) DATA NLZFI2=.F !* SET .TRUE. TO READ ZEFF(R,T) !NZEFMOD=2,3,2 !TZEFMOD=15.00,24.90 !DTZEFMOD=0.02 NLZSIM=.T !* SET .TRUE. TO READ SIM(R,T) NLZFIM=.F NLVISB=.F !* SET .TRUE. TO READ VIS. BREMS. DATA NLZVBR=.F !* SET .TRUE. TO USE VIS. BREMS. DATA FOR ZEFF ! ! SYSTEM DIMENSIONS: RMAJOR=0.0 !MAJOR RADIUS OF PLASMA SUPPLIED BY BDYMOM RMINOR=0.0 !MINOR RADIUS OF PLASMA SUPPLIED BY BDYMOM ! ! TRANSP Time Limits ! TINIT=13.00 FTIME=26.00 ! ! INITIAL CONDITIONS NG=3 !*INITIAL NUMBER OF HYDROGENIC SPECIES FRAC =0.0200,0.9798,0.0002 GFRAC=0.0000,1.0000,0.0000 RFRAC=0.0200,0.9798,0.0002 NGMAX=3 !* MAX NO. OF HYDROGENIC SPECIES = 1 ** ! ! OUTPUT SEDIT=.025 !time step for output of profiles STEDIT=.025 !time step for output of scalars ! ! FOR OUTPUTTING FAST ION D.F....(alphas & beam ions) !SELOUT='XXX' !list of TRANSP common symbols to output AVGTIM=0.50 !averaging time for SELAVG MTHDAVG=2 !averaging during each M.C. timestep OUTTIM=18.00,19.00,20.00,21.00,22.00 !Output times for AC (at most 5) ! ! PTCL BALANCE MODEL NMODEL=4 !USE (1) CONST. FRAC (2) CONST V OR (3) CONST D PTCL MODEL NDIFFI=1 ! CONST D INDEPENDANT OF T OR SPACE ,INPUT AS NAMELIST DIFFUS=0.1E+4 ! VALUE OF CONSTANT DIFFUSIVITY DFIMIN=0.0 ! MIN ALLOWED DIFFUSIVITY DFIMAX=1.0E+5 ! MAX ALLOWED DIFFUSIVITY DIFAC=1.0,1.0,1.0 ! MULTIPLIER ON D FOR EACH PLASMA SPECIES VIFAC=3.0,2.0,1.0 ! MULTIPLIER ON FLOW VELOCITY TAUPH=3*0.2 !* PTCL CONFINEMENT TIME TAUPO=.1 !* IMPURITY CONFINEMENT TIME NLRCYC=.T !T get taup from wall recycling NLTAUP=.F !T=input Tau(P) ion vs. time ! ! predictions: NPRAD=0 ! 2 to predict radiation NLPREDIC=.T ! .T to use coupled TE-TI solver XRELFAC=0.1 ! Chi_2 = Chi_1 (1-XRELFAC) + Chi_GLF23 XRELFAC MODIEDG=4 ! ions: use edge ion temperature from profile data MODEEDG=3 ! ditto electrons NLTEST=.T ! Turns on TEST2d1 etc NLRESTSC=.F ! Use TSC for ETA_NC NTINIT=3 ! initialize with Ti & Te data !XIBOUND=0.80 ! outer boundary for predictions ! NLNEOCL=.F ! .T for for Chi=CONINEO*Chang-Hinton (default=.F) CONINEO=5.0 ! coefic of Chang-Hinton (default=1.0) CONENEO=5.0 ! coefic of Chang-Hinton (default=1.0) ! NLALCAT=.F ! .T for for Chi=CONINEO*Neo-Alc (default=.F) CONIALC=2.E17 ! coefic of Neo-Alc (default=1.E18) CONEALC=2.E17 ! coefic of Neo-Alc (default=1.E18) ! ! GLF23 switches XRELFAC=0.1 ! Chi_2 = Chi_1 (1-XRELFAC) + Chi_GLF23 XRELFAC ALPHA_E=1.0 ! default=0 LROTSTAB=1 ! default=0 XIMINGLF=0.20 ! min x (default=0.0) XIMAXGLF=0.80 ! max x (default=1.0) LX_ALPHA=-1 ! 1 to turn on alpha stabilization LNROOT=8 ! number of roots, default =8 LIGLF=99 ! 1 to use renormalized GLF23 (default=0) LEIGEN=2 ! LIGRAD=0 ! LBT_FLAG=1 ! LTPORT=0,1,1,0,0 ! returns part diff, heat diff's, mom diff's ! ! MM95 switches XIMINMMM=0.10 ! min x (default=0.0) XIMAXMMM=0.80 ! max x (default=1.0) NLEXB=.T ! ExB flow shear (default=.F) FACEXB=1.0 ! factor for ExB flow shear ! ! ELECTRON CONDUCTIVITY MODEL NLXEIN=.T ! T to read KE2 ufile NKEMOD=0,0 ! 0 FOR ANALYSIS, 13 for GLF23 TKEMOD=19.0 ! transition time XKEMAX=1.0E+06 ! Max bound on Chi(e) XKEMIN=0.001 ! Min bound on Chi(e) ! ! ION ROTATION MODEL NLVPHI=.T ! T for rotating plasma NVPHMODA=0,0 ! 2 to use chi(phi)=chi(i)*XKFVPH TVPHMODA=19.0 ! times to switch NVPHMODA XKPINP=1.0E4 ! constant for NVPHMODA=3 XKFVPH=1.00 ! multiplier for=chi(phi) CHPHIMIN=1.0E+02 ! minimum allowed chi(phi) cm2/sec (>=1) CHPHIMAX=1.0E+05 ! maximum allowed chi(phi) cm2/sec XVPHI=2.0 ! Parabolic rot profile squared ! ! ION CONDUCTIVITY MODEL NLTI2=.T !T to use Ti profile data NLTI2TX=.T !T to use data as impurity Ti NLNTMJ=.T !T to use TMJ for neutron rates NKIMOD=4 !* SELECT KAPA(I) N.C. FIT MODEL XKFAC=2.0 !* ANOMOLOUS MULTIPLIER FOR Chi_e TKIMOD= 15.00,24.90 !* End times for NKIMODA NKIMODA=99,100,99 !Use Chi_i=XKIMOD*Chi_CH until time TKIMOD(1) XKIMOD=2.0,2.0 !* ANOMOLOUS MULTIPLIER FOR Chi_e period NKIMODA>0 NLFXKF=.F !*** ADJUST XKFAC TO FIT MEASURED TI IF .T NLXKIE=.F !.T to set Chi_i=XKFAC*Chi_e DLTKIE=2.0 ! to reduce Chi_i fluct ALPH0I=.6 ! 3/2 convection ALPH0E=.6 ! 3/2 convection NLNTX=.T ! .T to read neutrons NLTKA=.F ! .T FOR FEEDBACK ON K-ALPHA ION TEMPERATURE NLTNTX=.F XKFMAX=1000. XKFMIN=0.001 ! !----- Ti analysis mode (single model) GIEFAC=1.0 ! Ti/Te when Ti data not avail. (default=1.0) FIEFAC=1.0 ! Ti = (1-FIEFAC)*(GIEFAC*Te) + FIEFAC*Ti (default=0.0) DTISAVE=0.01 ! delay for predictive/analytical model switchover TIDXSW=0.10 ! switch for Ti data TIXLIM0=0.25 ! min xi (r/a) of valid Ti data (default=1.0) TIFACX0=1.20 ! for xi.le.(TIXLIM0-TIDXSW0), Ti = Te + TIFACX0*Tdiff TIXLIM=0.8 ! max xi (r/a) of valid Ti data (default=1.0) XTILIM=0.8 ! limit r/a of validity of Ti profile TIFACX=1.0 ! edge Ti/Te factor (default=0.0) ! !----- NCLASS controls NLOMGVTR=.T ! .T: rotation data inputs OMG or VP2 refer NLBOOTW=.T ! .T: use NCLASS bootstrap current XL1NCJBS=0.1 ! r/a for bootstrap smoothing; default XL1NCJBS=0.1 NLETAW=.T ! .T: use NCLASS resistivity XL1NCETA=0.0 ! r/a for eta smoothing; default XL1NCJBS=0.0 NLVWNC=.T ! .T: compute NCLASS radial electrostatic potential profile NLSQUEEZ=.T ! .T for "squeezing factor" correction NLTINC=.T ! .T to use Tx/Tmj, i.e. impurity temperature NLNCSMOO=.T ! .T to activate smoothing of temp & density TAUSMNNC=0.050 ! smoothing convolution time (tau) for densities TAUSMTNC=0.050 ! smoothing convolution time (tau) for temperatures XSMN_NC=0.050 ! radial smoothing half width for densities (r/a units) XSMT_NC=0.050 ! radial smoothing half width for temperatures (r/a units) NLSAW_NC=.T ! .T to reinitialize time convolutions at each sawtooth ! ! FUSION PRODUCTS MODEL NPTCLF=100 !Monte Carlo particles for fusion ion species NLFHE4=.T. !.T for DT->HE4 PLFHE4=5.0E3 !min energy (watts) for full NPTCLF NLFHE3=.F !.T for DD->He3 PLFHE3=1.0E4 !energy (watts) NLFST=.F !.T for DD->T PLFST=1.0E4 !energy (watts) NLBOUT=.F !.F for fast ion loss file NLFATOM=.F ! atomic effects on/of fusion products ions (CX loss) ! ! MAGNETICS MODELING NLSPIZ=.F !* .T TO USE SPITZER INSTEAD OF N.C. RESISTIVITY NLMDIF=.T ! .T TO SOLVE POLOIDAL FIELD DIFFUSION EQN. NLBOOT=.T !* =.T TO INCLUDE BOOTSTRAP CURRENTS NMCURB=3 ! beam current model 0=none 1=classical 3=neoclassical NLI2PB=.T !* COMPARE LI/2+BETA MEASURED DATA NLVSUR=.F NLALAM=.F NLBDIA=.F !* =.T to read in diamagnetic beta NLBPDA=.T NLDFLX=.F !* =.T to read in diamagnetic flux NEFLD=3 VLPMIN=0.1 VLPMML=0.05 !XPEFLD=2.0 XZFMIN=0.1 !QEFLD=4.0 !RQEFLD=0.0 NLQDATA=.T NQMODA=1,1 ! 4 for QPR input NQMODB=1,1 TQMODA=19.00 TAUQMOD=0.2 ! ! NEUTRALS MODEL - SEE ALSO PTCL BALANCE NSOMOD=1 ! SELECT 1 FOR FRANTIC, 8 FOR SORCE8 MOD0ED=1 ! =1 TO SET T0(EDGE)=TIEDGE , =3 T0(EDGE) = TE(EDGE) !MODIEDG=3 ! =1 TO SET TI(EDGE)=TIEDGE , =3 TI(EDGE) = TE(EDGE) TI0FRC=.033333 ! T0(A)=TI0FRC*TI(0) IF MOD0ED=2 E0IN=10., 2*3., 10., 2*3. ! T0(A) FOR COLD SCES, HOT SCES IF MOD0ED=1 FH0ESC=.3 ! FRAC. OF ESC. NEUTRALS REFLECTED TO PLASMA "HOT" ! ! EFLUX MODEL NLEFLX=.F !* .T FOR NEUTRAL EFLUX CALCULATION ! !================================================================ ! ICH Model !================================================================ ! NLICRF=.F NICRF=1 !ICRF model switch (1=new SPRUCE; 5=old SPRUCE) DTICRF=0.050 !HOW OFTEN TO CALL ICRF HEATING PACKAGE XZMINI=1.0 !* MINORITY CHARGE STATE AMINI=1.0 !* ATOMIC WT OF MINORITY !FRMINI=0.05 !* MINORITY CONCENTRATION nmin/ne (if not set by a ufile) !FRACMINI=0.10,0.90 !* MINORITY relative fractions TAUMIN=0.2 ! Minority ptcl conf. time (not known) ! NICHPSI=128 !* Number of radial grid points default=128 NICHCHI=64 !* Number of poloidal grid points default=64 ERFMAX=10.E6 !* Max grid energy (eV) default=10MeV ! NICHA=3 !* Number of ICH antennas must agree with RFLIST NGEOANT=13 !* 1 to specify antennae geom w RMNICHA, RMJICHA circles RGEOANT=380.06,382.87,385.18,386.98,388.27,389.04,389.30,389.04,388.27, RGEOANT(10)=386.98,385.18,382.87,380.06 YGEOANT=89.912,80.439,70.833,61.119,51.325,41.476,31.600,21.724,11.875, YGEOANT(10)=2.0808,-7.6329,-17.239,-26.712 RMJICHA(1)=4*200.6 !* Major radius of each antenna (cm) RMNICHA(1)=4*188.7 !* Minor radius of antenna (<0 for high field ant.) THICHA(1)=4*36.0 !* Poloidal extent of each antenna (degrees) WIDICHA(1)=4*16.0 !* Toroidal width of each antenna element (cm) SEPICHA(1)=4*45.6 !* Toroidal Separation of antenna elements (cm) ! PHICHA(1,1)=0,180,0,180 PHICHA(1,2)=0,180,0,180 PHICHA(1,3)=0,180,0,180 PHICHA(1,4)=0,180,0,180 VVRMOM(1)=292.8,134.5,10.4 VVZMOM(1)=0.0,209.6,-16.2 TCRFON= 12.1 TCRFOF= 20. ! ! ***************************************** ! Pellet data ! ***************************************** ! NPEL=0 ! Number of pellets TPEL=4.4999,4.7506,4.9996 ! List of pellet popping times PELVEL=1.289E+5,1.169E+5,1.374E+5 ! List of pellet velocities PELRAD=0.27,0.27,0.4 ! List of pellet radii APEL=2.0,2.0,2.0 ! List of atomic weights of pellet material ! NMPELA=1 ! 1=std model +ablation, 2=ablation only LPLPRI=3 ! ablation printout detail, larger n => more detail PLTEDG=1.0 ! edge region Te for pellet ablation PLDEDG=1.E11 ! edge region ne for pellet ablation PLRSTA=700.0 ! R start of pellet PLYSTA=0.0 ! Y start of pellet PLTHEA=0.0 ! Poloidal tilt angle of pellet gun (degrees) PLPHIA=0.00 ! Toroidal tilt angle of pellet gun (degrees) ! ! DATA HANDLING ! NSHOT=52009 TGRID1=0.050 ! UPF F(T) TIME GRID DT TGRID2=0.050 ! UPF F(X,T) TIME GRID DT PRFAC=0.1 !* FRACTION OF CX EFLUX TOT POWER TO SUBTRACT FROM BOLO. ! NRITER=1 NSYTER=0 ! Set to 1.0 for slice and stack if NRITER=3 NRIKE2=-5 NRINER=1 NSYNER=0 ! Set to 1.0 for slice and stack if NRINER=3 NSYECF=0 NRIECF=1 NRITI2=1 ! Ti(R) map 1= input on major radius to right of axis only NRIKI2=-5 NRIOMG=1 NRIVP2=1 NRIZF2=1 NRIQPR=7 NRIBOL=7 NRISIM= 1, 1 NSYSIM= 0, 0 ! FNEMIN=5.0E12 ! ! MISCELLANEOUS NLEBAL=.T ! .T FOR ELECTRON ENERGY BALANCE CALCULATION NLTIBL=.T ! .T FOR TI BALANCE CALCULATION NLPBAL=.T ! .T FOR PTCL BALANCE CALCULATION ! ! ***************************************** ! Diagnostic simulation parameters ! ***************************************** ! ! Interferometer and Faraday rotation array ! geometry of KG1V cold from drawing K09000100 Issue D dated 13/11/96 ! R=1.885,2.698,3.020,3.730,3.000,3.000,3.000,3.000 ! Z=0.000,0.000,0.000,0.000,-0.606,-0.372,-0.145,0.188 ! A=1.5708,1.5708,1.5708,1.5708,0.3910,0.1676,-0.0384,-0.2426 ! R.Budny converted to TRANSP variables 16Dec1998 NLDA=8 PHLDA=8*0.00 !RLDA=188.5,269.8,302.0,373.0,400.0,400.0,400.0,400.0 RLDA=190.5,271.8,306.0,378.0,400.0,400.0,400.0,400.0 YLDA=-300.0,-300.0,-300.0,-300.0,-13.378,-14.281,-12.342,+0.053 THLDA=90.00,90.00,90.00,90.00,22.403,9.603,-2.200,-13.900 ! ! VB array ! Geometry from P. Morgan, 9 Sept 87 ! geometry correcte 2 August 1990 by PMS as in run 4078 !NVBA = 15 !PHVBA = 15*0. !THVBA = 66.0,69.4,72.0,74.4,81.1,79.8,84.6,86.8,85.1,92.1,90.9, !THVBA(12) = 98.3,103.2,90.0,0.0 !RVBA = 324.0,324.0,324.0,324.0,288.0,324.0,288.0,288.0, !RVBA(9) = 324.0,288.0,324.0,288.0,263.0,310.0,450.0 !YVBA = 14*-367.0,-29.0 ! ! Geometry for 1991 diagnostic 10 sept 91 ! VBINT(10) corresponds to S3-AD16 used for HAL/EFZ ! !NVBA = 10 !PHVBA = 10*0. !THVBA = -67.6,-69.9,-72.8,-75.8,-84.4,-86.3,-94.9,-98.4,-107.8,-90.0 !RVBA = 6*331.49,3*279.76,311.0 !YVBA = 10*351.65 ! ! Geometry for 1996 diagnostic / 22 Aug 1996 from P.Morgan ! VBINT(1) corresponds to KS3/BASH used for KS3/ZEFH ! VBINT(2) corresponds to KS3/BASV used for KS3/ZEFV ! NVBA = 2 PHVBA = 2*0. THVBA = -2.00522,90.0 RVBA = 590.08,311.0 YVBA = 2.15,-300. ! ! Collimated Neutron Array ! Geometry from G. Sadler 15 Sept 87 ! only good for '86 and winter '87 runs NNTA = 19 PHNTA = 19*0. THNTA = 18.62,14.68,10.6,6.41,2.14,-2.14,-6.41,-10.6,-14.68,-18.62, THNTA(11) = -77.58,-80.62,-83.72,-86.85,-90.0,-93.14,-96.28, THNTA(18) = -99.38,-102.42 RNTA = 10*605.5, 5*302.15, 4*302.15 ! focal point YNTA corrected 12/07/88 YNTA = 10*0.,9*344.2 ! ! CX detector array ! ! Crystal Spectrometer ! Geometry from E. Kallne 9 Sept 87 NXCA = 1 RXCA = 4.0 YXCA = 0. THXCA = 0. PHXCA = 27.065 ! ********************************************* ! TRDAT NAMELIST ! ********************************************* ! $TRDATA INPUTDIR='/u/budny/transp/data/JET/52009/' !INPUTDSK='TR_DISK:' !INPUTDIR='BUDNY.JET' NLRNNE = .FALSE. ! .T TO RENORM NE(R) TO LINE AVG NE in TRDAT LFIXUP=0 !XRCTER=0.5 XRCNER=0.7 !XRCECF=-1.0 XRCTI2=0.2 !XRCKI2=0.5 !XRCKE2=0.5 !XRCVP2=0.3 XRCOMG=0.2 XRCZF2=0.2 XRCSIM=0.2,0.2,0.2 ! !TPELDA=11.900,12.100!list of bad data times around each pellet ! The TPELDA times must be at least 2*max(tgrid1,trgrid2) away ! from the pellet time TPEL !TPELDA(1,1)=4.4 ! TIME0 = 40.0 !JET plasma's don't begin at TIME0=0.0! ! !PREQPR='EFIT' !EXTQPR='Q' PRECUR='MG2' EXTCUR='XIP_0034' PREVSF='MG3' EXTVSF='VPA_0034' PRETER='STR_LIDR' EXTTER='TE_0125' !PREECF='ECE' !EXTECF='TEFQ' PRENER='STR_LIDR' ! 'KS3' EXTNER='NE_0125' ! 'NERH_0210' PREL2B='MG2' EXTL2B='XLM_0034' PREMRY='M' EXTMRY='MRY_EFRB_0416' PRERBZ='MAGN' EXTRBZ='ITOR_0004' PREBOL='BURA' EXTBOL='LEPS_0230' PRENTX='TIN' EXTNTX='RNT_0215' PRENB2='P' EXTNB2='NBI' !PREZF2='STR_CXSM' !EXTZF2='ZFCXCOR' !PREZEF='KS3' !EXTZEF='ZEFV_0210' !PREZIM='ZIMP' !EXTZIM='ZIMP' !PRETIT='STIX' !EXTTIT='TIX' PRETI2='STR_CXSM' EXTTI2='TICRCOR' PREBDI='MG2' EXTBDI='BET_0034' !PRETPI='STPI' !EXTTPI='TPI' !PREVP2='????' !EXTVP2='????' PREOMG='STR_CXSM' EXTOMG='AFCRCOR' !PREVPH='SVPH' !EXTVPH='VPH' PRESAW='A' EXTSAW='TE01_20_SAW' !PRERFP='PICH' !EXTRFP='ICRH' !PRERFF='FREQ' !EXTRFF='ICRH' PRERCY='EDG6' EXTRCY='FLW_0204' ! scaled up x10 PREGAS='GASM' EXTGAS='MAJR_0002' PRESIM='STR_CXSM','STR_CXSM' EXTSIM='DFB2COR', 'DENSCOR' !PRERPL='A' !EXTRPL='RPL' PREKE2='PRE' EXTKE2='KE2' PREKI2='PRE' EXTKI2='KI2' ! $END ! ***** Beginning of the file 'JETTRN.TAPE4A.NBFIXD.DAT'. ***** ! (This file is inserted by NBLIST.FOR.) !NBLIST.FOR ! DTBEAM=0.025 NPTCLS=4000 NDEP0=500 ! GOOMAX=500.0 GOOCON=2.0 DTN=1.8E-6 !NBLIST.FOR !** BEAM SPECIFICATIONS REDGE=17.0 XZEDGE=19.0 NBSHAP=1 !NBLIST.FOR ! FOCAL LENGTHS AND DIVERGENCES - NEW BEAM DEP MODEL FOCLZ=1.4E3 FOCLR=1.E3 DIVR=1.22E-2 DIVZ=1.22E-2 BMWIDR=9.0 BMWIDZ=22.5 !NBLIST.FOR ! NLFBM=.T !NBLIST.FOR !* .TRUE. TO CALC. BEAM DISTRIBUTION FCN FOR FIDE, ETC. !NBLIST.FOR ! !NBLIST.FOR ! EXTERNAL NEUTRAL DENSITY: DN0OUT=5.E11 !NBLIST.FOR ! ! JET VACUUM VESSEL DESCRIPTION-- TREAT AS LIMITER FOR ! BEAM DEPOSITION AND EFLUX NCIRLM=1 NLINLM=3 ALNLMR=0.0,0.0,421.0 ALNLMY=215.0,-215.0,0.0 ALNLMT=0.0,0.0,90.0 CRLMR1=480.0 CRLMY1=28.0 CRLMRD=300.6 ! ***** End of the file 'JETTRN.TAPE4A.NBFIXD.DAT' ***** ! BEAMLINE P2 %$TRANSP.JET !NBLIST.FOR OUTPUT NLCO(1) = .T EINJA(1) = 0.000000E+00 PINJA(1) = 0.000000E+00 TBONA(1) = 1.626700E+01 TBOFFA(1) = 2.446500E+01 XZBEAMA(1) = 1.000000E+00 ABEAMA(1) = 2.000000E+00 RTCENA(1) = 1.848000E+02 XLBAPA(1) = 8.205000E+02 XLBTNA(1) = 1.255200E+03 XYBAPA(1) = 1.500000E+01 XYBSCA(1) = 1.461000E+02 ! BEAMLINE P3 %$TRANSP.JET !NBLIST.FOR OUTPUT NLCO(2) = .T EINJA(2) = 0.000000E+00 PINJA(2) = 0.000000E+00 TBONA(2) = 1.501199E+01 TBOFFA(2) = 2.439000E+01 XZBEAMA(2) = 1.000000E+00 ABEAMA(2) = 2.000000E+00 RTCENA(2) = 1.310000E+02 XLBAPA(2) = 8.205000E+02 XLBTNA(2) = 1.274300E+03 XYBAPA(2) = 1.500000E+01 XYBSCA(2) = 1.461000E+02 ! BEAMLINE P4 %$TRANSP.JET !NBLIST.FOR OUTPUT NLCO(3) = .T EINJA(3) = 0.000000E+00 PINJA(3) = 0.000000E+00 TBONA(3) = 1.501199E+01 TBOFFA(3) = 2.439000E+01 XZBEAMA(3) = 1.000000E+00 ABEAMA(3) = 2.000000E+00 RTCENA(3) = 1.310000E+02 XLBAPA(3) = 8.300000E+02 XLBTNA(3) = 1.283800E+03 XYBAPA(3) = 2.600000E+01 XYBSCA(3) = 4.589999E+01 ! BEAMLINE P5 %$TRANSP.JET !NBLIST.FOR OUTPUT NLCO(4) = .T EINJA(4) = 0.000000E+00 PINJA(4) = 0.000000E+00 TBONA(4) = 1.500700E+01 TBOFFA(4) = 2.489500E+01 XZBEAMA(4) = 1.000000E+00 ABEAMA(4) = 2.000000E+00 RTCENA(4) = 1.310000E+02 XLBAPA(4) = 8.298999E+02 XLBTNA(4) = 1.283700E+03 XYBAPA(4) = -6.000000E+00 XYBSCA(4) = -4.839999E+01 ! BEAMLINE P6 %$TRANSP.JET !NBLIST.FOR OUTPUT NLCO(5) = .T EINJA(5) = 0.000000E+00 PINJA(5) = 0.000000E+00 TBONA(5) = 1.500700E+01 TBOFFA(5) = 2.489500E+01 XZBEAMA(5) = 1.000000E+00 ABEAMA(5) = 2.000000E+00 RTCENA(5) = 1.310000E+02 XLBAPA(5) = 8.190000E+02 XLBTNA(5) = 1.272700E+03 XYBAPA(5) = -3.000000E+00 XYBSCA(5) = -1.474000E+02 ! BEAMLINE P7 %$TRANSP.JET !NBLIST.FOR OUTPUT NLCO(6) = .T EINJA(6) = 0.000000E+00 PINJA(6) = 0.000000E+00 TBONA(6) = 1.501199E+01 TBOFFA(6) = 2.464500E+01 XZBEAMA(6) = 1.000000E+00 ABEAMA(6) = 2.000000E+00 RTCENA(6) = 1.848000E+02 XLBAPA(6) = 8.190000E+02 XLBTNA(6) = 1.253600E+03 XYBAPA(6) = -3.000000E+00 XYBSCA(6) = -1.474000E+02 ! BEAMLINE P8 %$TRANSP.JET !NBLIST.FOR OUTPUT NLCO(7) = .T EINJA(7) = 0.000000E+00 PINJA(7) = 0.000000E+00 TBONA(7) = 1.501199E+01 TBOFFA(7) = 2.464500E+01 XZBEAMA(7) = 1.000000E+00 ABEAMA(7) = 2.000000E+00 RTCENA(7) = 1.848000E+02 XLBAPA(7) = 8.298999E+02 XLBTNA(7) = 1.264600E+03 XYBAPA(7) = -6.000000E+00 XYBSCA(7) = -4.839999E+01 ! BEAMLINE Q1 %$TRANSP.JET !NBLIST.FOR OUTPUT NLCO(8) = .T EINJA(8) = 0.000000E+00 PINJA(8) = 0.000000E+00 TBONA(8) = 1.600700E+01 TBOFFA(8) = 2.299899E+01 XZBEAMA(8) = 1.000000E+00 ABEAMA(8) = 2.000000E+00 RTCENA(8) = 1.848000E+02 XLBAPA(8) = 8.300000E+02 XLBTNA(8) = 1.264600E+03 XYBAPA(8) = 2.600000E+01 XYBSCA(8) = 4.589999E+01 ! BEAMLINE Q2 %$TRANSP.JET !NBLIST.FOR OUTPUT NLCO(9) = .T EINJA(9) = 0.000000E+00 PINJA(9) = 0.000000E+00 TBONA(9) = 1.632600E+01 TBOFFA(9) = 2.299899E+01 XZBEAMA(9) = 1.000000E+00 ABEAMA(9) = 2.000000E+00 RTCENA(9) = 1.848000E+02 XLBAPA(9) = 8.205000E+02 XLBTNA(9) = 1.255200E+03 XYBAPA(9) = 1.500000E+01 XYBSCA(9) = 1.461000E+02 ! BEAMLINE Q3 %$TRANSP.JET !NBLIST.FOR OUTPUT NLCO(10) = .T EINJA(10) = 0.000000E+00 PINJA(10) = 0.000000E+00 TBONA(10) = 1.687100E+01 TBOFFA(10) = 2.336501E+01 XZBEAMA(10) = 1.000000E+00 ABEAMA(10) = 2.000000E+00 RTCENA(10) = 1.310000E+02 XLBAPA(10) = 8.205000E+02 XLBTNA(10) = 1.274300E+03 XYBAPA(10) = 1.500000E+01 XYBSCA(10) = 1.461000E+02 ! BEAMLINE Q4 %$TRANSP.JET !NBLIST.FOR OUTPUT NLCO(11) = .T EINJA(11) = 0.000000E+00 PINJA(11) = 0.000000E+00 TBONA(11) = 1.650600E+01 TBOFFA(11) = 2.387000E+01 XZBEAMA(11) = 1.000000E+00 ABEAMA(11) = 2.000000E+00 RTCENA(11) = 1.310000E+02 XLBAPA(11) = 8.300000E+02 XLBTNA(11) = 1.283800E+03 XYBAPA(11) = 2.600000E+01 XYBSCA(11) = 4.589999E+01 ! BEAMLINE Q5 %$TRANSP.JET !NBLIST.FOR OUTPUT NLCO(12) = .T EINJA(12) = 0.000000E+00 PINJA(12) = 0.000000E+00 TBONA(12) = 1.674100E+01 TBOFFA(12) = 2.354500E+01 XZBEAMA(12) = 1.000000E+00 ABEAMA(12) = 2.000000E+00 RTCENA(12) = 1.310000E+02 XLBAPA(12) = 8.298999E+02 XLBTNA(12) = 1.283700E+03 XYBAPA(12) = -6.000000E+00 XYBSCA(12) = -4.839999E+01 ! BEAMLINE Q6 %$TRANSP.JET !NBLIST.FOR OUTPUT NLCO(13) = .T EINJA(13) = 0.000000E+00 PINJA(13) = 0.000000E+00 TBONA(13) = 1.650600E+01 TBOFFA(13) = 2.399899E+01 XZBEAMA(13) = 1.000000E+00 ABEAMA(13) = 2.000000E+00 RTCENA(13) = 1.310000E+02 XLBAPA(13) = 8.190000E+02 XLBTNA(13) = 1.272700E+03 XYBAPA(13) = -3.000000E+00 XYBSCA(13) = -1.474000E+02 ! BEAMLINE Q7 %$TRANSP.JET !NBLIST.FOR OUTPUT NLCO(14) = .T EINJA(14) = 0.000000E+00 PINJA(14) = 0.000000E+00 TBONA(14) = 1.701100E+01 TBOFFA(14) = 2.319000E+01 XZBEAMA(14) = 1.000000E+00 ABEAMA(14) = 2.000000E+00 RTCENA(14) = 1.848000E+02 XLBAPA(14) = 8.190000E+02 XLBTNA(14) = 1.253600E+03 XYBAPA(14) = -3.000000E+00 XYBSCA(14) = -1.474000E+02 ! BEAMLINE Q8 %$TRANSP.JET !NBLIST.FOR OUTPUT NLCO(15) = .T EINJA(15) = 0.000000E+00 PINJA(15) = 0.000000E+00 TBONA(15) = 1.661099E+01 TBOFFA(15) = 2.371500E+01 XZBEAMA(15) = 1.000000E+00 ABEAMA(15) = 2.000000E+00 RTCENA(15) = 1.848000E+02 XLBAPA(15) = 8.298999E+02 XLBTNA(15) = 1.264600E+03 XYBAPA(15) = -6.000000E+00 XYBSCA(15) = -4.839999E+01 NBEAM=15 ! NBLIST.FOR: NO. OF BEAMS ! NBLIST.FOR: 20% .GT. MAX(INJECTION ENERGY): NLBEAM=.T ! T=BEAMS ON ** EBDMAX= 1.619999E+05 NLBDAT=.T ! ** BEAM DATA UFILE FLAG **